The c-bit

The Cohesion Unified Field Theory identifies the electron as a trapped bipolar (n = 2)
recursion whose two torsion phases constitute a deterministic geometric binary. This
paper defines the c-bit — the coherence bit — as the minimal computational unit derived
from this structure. Unlike the quantum bit (qubit), the c-bit is not a superposition
of basis states requiring probabilistic collapse for readout. It is a mechanical toggle
between two torsion phases, governed by the universal toggle threshold Φ = 32/(3π
2−4).
The c-bit inherits its stability from the same phase-locking geometry that sustains
ferromagnetic order below the Curie temperature and its switching energy from the
torsion interval structure that determines particle masses. This paper derives the c-bit
from electron recursion geometry, defines its stable and stressed states, establishes the
binary geometry, outlines engineering implementation constraints, compares the c-bit
to the qubit, and identifies implications for deterministic computation.